Registration information for the Chemical Engineer exam

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Information on the Registration Chemical Engineer Examination I. Syllabus for the Basic Examination for Registered Chemical Engineers (1) Subjects and main contents of the General Knowledge examination (morning session) 1. Mathematics (20% of the exam questions) 1.1 Knowledge in areas such as spatial analytic geometry, vector algebra, lines, planes, cylinders, rotational surfaces, quadratic surfaces, and spatial curves. 1.2 Knowledge of concepts such as limits, continuity, derivatives, differentials, partial derivatives, total differentials, and applications of derivatives and differentials; mastery of basic formulas and familiarity with basic calculation methods. 1.3 Knowledge of indefinite integrals, definite integrals, improper integrals, double integrals, triple integrals, line integrals, and applications of integrals in calculus; mastery of basic formulas and calculation methods. 1.4 Knowledge of infinite series, including term series, power series, Taylor series, and Fourier series. 1.5 Knowledge of separable differential equations, first-order linear equations, equations that can be reduced in order, and linear equations with constant coefficients. 1.6 Probability and Mathematical Statistics: Knowledge in the area of probability theory, including random events and probabilities, classical probability, the distributions of one-dimensional random variables, and their numerical characteristics. In the field of mathematical statistics, basic knowledge in areas such as parameter estimation, hypothesis testing, analysis of variance, and simple regression analysis. 2. Thermodynamics (proportion of questions: 9%) 2.1 Gas state parameters, equilibrium state, ideal gas law, statistical explanations for the pressure and temperature of ideal gases. 2.2 Work, heat, and internal energy. 2.3 Energy according to the principle of equal distribution of energy among degrees of freedom, internal energy of an ideal gas, average number of collisions and mean free path, Maxwell’s velocity distribution law. 2.4 The first law of thermodynamics and its application to isobaric and adiabatic processes of ideal gases, molar heat capacity of gases, enthalpy. 2.5 Thermodynamic processes, cyclic processes. 2.6 Thermodynamic engine efficiency. 2.7 The second law of thermodynamics and its statistical meaning, reversible and irreversible processes, entropy. 3. General Chemistry (proportion of questions: 14%) 3.1 Structure of Matter and States of Matter: distribution of electrons outside the atomic nucleus, electron configuration of atoms and ions, concepts of atomic orbitals and electron clouds, characteristics of ionic bonds, characteristics and types of covalent bonds. Molecular structural formulas, hybrid orbitals and molecular spatial configurations, polar and non-polar molecules, intermolecular forces and hydrogen bonds. Pressure division law and calculations. Vapor pressure of liquids, boiling point, heat of vaporization. The relationship between crystal type and material properties. 3.2 Concentration of solutions and its calculation. General properties and calculations of dilute non-electrolyte solutions, concept of osmotic pressure. The ionization equilibrium of electrolyte solutions, ionization constants and their calculation, the common-ion effect and buffer solutions, the ion product of water and pH, the hydrolysis equilibrium of salts and the acidity or alkalinity of solutions. Multi-phase ion equilibrium and the acidity and basicity of solutions, solubility product constants, concepts of solubility, and their calculations. 3.3 Periodic Law: Structure of the periodic table – periods and groups, relationship between atomic structure and the periodic table. Properties of elements and the trends in the acidity and basicity of their oxides and hydrates. 3.4 Chemical reaction equations, reaction rates, and chemical equilibrium: the notation and calculation of chemical reaction equations, the concept of reaction heat, and the notation of thermochemical reaction equations. Methods of expressing chemical reaction rates, the influence of concentration and temperature on reaction rates, rate constants and reaction orders, activation energy, and the concept of catalysts. Characteristics of chemical equilibrium and expressions for equilibrium constants, principles and calculations of chemical equilibrium shifts, pressure and entropy in determining the direction of chemical reactions. 3.5 Redox reactions and electrochemical oxidants and reductants, the notation and balancing of redox reaction equations. Composition and notation of galvanic cells, electrode reactions and cell reactions, standard electrode potentials, the Nernst equation and applications of electrode potentials, electrolysis and metal corrosion. 3.6 Characteristics, classification, and naming of organic compounds in organic chemistry; functional groups and molecular structural formulas. Important chemical reactions of organic compounds: addition, substitution, elimination, condensation, oxidation, addition polymerization, and polycondensation. Molecular formulas, properties, and uses of typical organic compounds: methane, ethane, benzene, toluene, ethanol, phenol, acetaldehyde, ethyl acetate, ethylamine, aniline, polyvinyl chloride, polyethylene, polyacrylates, engineering plastics (ABS), rubber, nylon 66. 4. Engineering Mechanics (proportion of questions: 15%) 4.1 Theoretical Mechanics 4.1.1 Static equilibrium, rigid bodies, forces, constraints, statics axioms, force analysis, moment of a force about a point, moment of a force about an axis, couple theory, simplification of force systems, resultant force and resultant moment, equilibrium of force systems, equilibrium of object systems (including planar statically determinate trusses), sliding friction, friction angle, self-locking, equilibrium of object systems considering sliding friction, center of gravity. 4.1.2 Equations of motion, trajectory, velocity, and acceleration of kinematic points; translation of rigid bodies, rotational motion of rigid bodies about fixed axes, equations of rotation, angular velocity, and acceleration; velocity and acceleration of any point within a rigid body. 4.1.3 Dynamics: Basic laws of dynamics, differential equations of particle motion, momentum, impulse, law of momentum. Conditions for momentum conservation, center of mass, theorem of motion of the center of mass, conditions for conservation of motion of the center of mass. Moment of momentum, law of moment of momentum, conditions for conservation of moment of momentum, differential equations for rotational motion of rigid bodies about a fixed axis, moment of inertia, radius of gyration, parallel axis theorem for moment of inertia, work, kinetic energy, potential energy, work-energy theorem, conservation of mechanical energy, inertial forces, simplification of the system of inertial forces acting on a rigid body, D’Alembert’s principle, differential equations for linear vibration of single-degree-of-freedom systems, vibration period, frequency, and amplitude, constraints, degrees of freedom, generalized coordinates, virtual displacements, ideal constraints, principle of virtual displacements. 4.2 Mechanics of Materials (It is recommended to use the content of the \"Mechanics of Materials\" subject in the examination syllabus for the \"Structural Engineering\" major, but the following contents should be simplified): 4.2.1 Axial forces and axial force diagrams, stresses in the cross-sections and inclined sections of tensioned and compressed members, strength criteria, Hooke’s law and displacement calculations, strain energy calculations. 4.2.2 Practical calculations of shear and compression, Hooke’s law for shear, and the theorem of equal shear stresses. 4.2.3 Calculation of external couple moments, torque and torque diagrams, torsional shear stress and strength conditions for circular shafts, calculation of torsional angles and stiffness conditions, calculation of torsional strain energy. 4.2.4 Moment of inertia and centroid, moments of inertia and products of inertia, parallel axis theorem, principal moments of inertia about the centroid. 4.2.5 Internal force equations of beams, shear force diagrams and bending moment diagrams, differential relationships among q, Q, and M, normal stress in bending and stress strength conditions, shear stress in bending and shear stress strength conditions, optimal cross-sections for beams, the concept of the bending center, integral methods for determining beam deformation, the superposition method, and Cauchy’s second theorem. 4.2.6 Numerical and graphical methods for analyzing plane stress states, principal stresses and maximum shear stress in a one-point stress state. Generalized Hooke’s law. Four commonly used strength theories. 4.2.7 Obliquely curved surfaces, eccentric compression (or tension) combined with bending or compression-bending, torsion-bending combinations. 4.2.8 Formula for the critical force of slender compression members, scope of application of Euler’s formula, charts of critical stress and empirical formulas, stability verification of compression members. 5. Electrical Engineering (10% of the exam score). The main topics covered in the examination for this subject are based on those outlined in the examination syllabus for the \"Structures\" major under the category of Electrical Engineering. 5.1 Electric fields and magnetic fields: Coulomb’s law, Gauss’s law, the law of loops, and the law of electromagnetic induction. 5.2 DC Circuits: Basic circuit elements, Ohm’s law, Kirchhoff’s laws, superposition principle, Thevenin’s theorem. 5.3 Sinusoidal AC Circuits: Three elements of sinusoidal quantities, RMS value, complex impedance, calculations for single-phase and three-phase circuits, power and power factor, series and parallel resonance. 5.4 Basic knowledge of safe electricity use. 5.5 Transient processes in RC and RL circuits: the three-element analysis method. 5.6 Transformers and Motors: Voltage, current, and impedance transformation of transformers, use of three-phase asynchronous motors, common relay-contactor control circuits. 5.7 Operational Amplifiers: Proportional, additive, subtractive, and integrative circuitry composed of ideal operational amplifiers. 5.8 Basic knowledge of frequency conversion and frequency modulation. 6. Fluid Mechanics (proportion of questions: 8%) (The main content of the examination on \"Fluid Mechanics\" is formulated according to the relevant provisions in the examination syllabus for the \"Structures\" major.) 6.1 Main physical properties of fluids. 6.2 Fluid statics. The concept of hydrostatic pressure. The distribution law of hydrostatic pressure under gravity, and the calculation of total pressure. 6.3 Fundamentals of fluid dynamics. The concept of flow is described using fluids as the subject. Overall flow analysis of fluid motion, the continuity equation for a constant overall flow, the energy equation, and the momentum equation. 6.4 Fluid resistance and head loss. Two flow regimes of real fluids: laminar flow and turbulent flow. Characteristics of laminar and turbulent flow in circular tubes. Head loss along the flow path and local head loss. Basic concepts of boundary layer boundary layer and flow loss. 6.5 Flow from orifices and nozzles, steady flow in pressurized pipes. 6.6 Principle of similarity and dimensional analysis. 6.7 Measurement of fluid motion parameters (flow velocity, flow rate, pressure). 7. Computers and Numerical Methods (proportion of questions: 12%) (The main content of the exam for \"Computers and Numerical Methods\" is based on the content of this subject in the examination syllabus for the \"Structure\" major, with some modifications). 7.1 Basic Computer Knowledge: Composition and functions of hardware, composition and functions of software, number system conversion. 7.2 Windows operating system. 7.3 Program structure and basic rules of computer programming languages, data, variables, arrays, pointers, assignment statements, input/output statements, transfer statements, conditional statements, selection statements, loop statements, functions, subroutines (or procedures), sequential files, random files. Note: Given the current circumstances, the FORTRAN language is used temporarily. 7.4 Errors in numerical methods, polynomial interpolation and curve fitting, spline interpolation, numerical differentiation, basic principles of numerical integration, Newton-Cotes formulas, composite integration, the Runge algorithm. The Euler method for ordinary differential equations, the improved Euler method, the Runge-Kutta method, iterative methods for solving equations, and the Newton-Raphson method. Gaussian elimination, square root method, and Thomas algorithm for solving systems of linear equations. 8. Concepts of Engineering Economics (exam proportion: 6%) (Instead of the subject title “Engineering Economics” used in the “Structure” major, the title “Concepts of Engineering Economics” is used; the exam content is revised based on university textbooks) 8.1 Be familiar with the basic principles and methods. Evaluation methods for economic effects and comparability principles. Methods for estimating investment and production costs. Annual cost, expected value, failure analysis, present value, profit-consumption analysis, value and depreciation. 8.2 Be familiar with the selection of investment plans. Methods for selecting various investment plans. 8.3 Be familiar with the economic analysis of equipment renewal. Principles of equipment renewal plans. Methods for determining the economic life of equipment. 8.4 Understand technical-economic forecasting methods. Basic concepts of forecasting and various forecasting techniques. 8.5 Understand investment risks and decision-making. The concepts of risk and decision-making. Various risk decision-making methods. 8.6 Understand the technology economics in research and development. Various evaluation methods for research and development projects. 9. Professional ethics (question proportion: 6%) 9.1 Be familiar with the professional ethics and codes of conduct for staff (relationships with colleagues, with the organization, and with users). (II) Subjects and main contents of the basic professional knowledge exam (afternoon session): 1. Physical Chemistry (20% of the exam score); mastery of basic theories and concepts, as well as familiarity with typical calculations and applications. 1.1 Properties of gas P, V, T (this item can be omitted if it was already covered in the \"Thermodynamics\" exam in the morning). 1.2 The First Law of Thermodynamics (same as above. ) 1.3 The Second Law of Thermodynamics (same as above). 1.4 Thermodynamics of multicomponent systems (same as above, but this content is not covered in depth in the \"Thermodynamics\" exam in the morning). 1.5 Chemical equilibrium: Chemical equilibrium in ideal gas reactions, chemical equilibrium in real reactions. 1.6 Phase equilibrium: gas-liquid equilibrium in single-component and two-component systems, liquid-solid equilibrium in two-component systems, and three-component systems. 1.7 Electrochemistry: electrolytic cells, galvanic cells and Faraday’s law, electrolyte solutions, galvanic cells, electrolysis and polarization. 1.8 Surface phenomena: surface tension, wetting phenomena, additional pressure on curved liquid surfaces and capillary phenomena, adsorption on solid surfaces, isothermal adsorption, adsorption on solution surfaces, surfactants. 1.9 Fundamentals of chemical kinetics: rate equations for chemical reactions, rate and mechanism of complex reactions, theory of reaction rates. 1.10 Kinetics of various special reactions: reactions in solution and multiphase reactions ； Photochemistry, catalysis. 1.11 Colloid chemistry. Colloidal dispersion systems and their basic properties, the stabilization and coagulation of lyophobic sols, emulsions, foams, suspensions, and aerosols, solutions of polymer compounds. 2. Principles of Chemical Engineering (50% of the exam score): Master the basic theories and concepts, be familiar with the calculations and applications of basic unit operations, and understand the process design for typical systems and unit devices in chemical engineering (distillation systems and plate distillation columns, gas absorption systems and packed absorption towers, heat exchange systems and shell-and-tube heat exchangers, drying systems and dryers). (The portion of fluid mechanics already covered in the morning exam for the \"Fluid Mechanics\" course is not included again in the exam content for the \"Principles of Chemical Engineering\" course.) 2.1 Fluid transfer machinery: liquid transfer equipment, centrifugal pumps, and other types of pumps. Gas delivery and compression equipment. 2.2 Separation of heterogeneous systems: fluidization and pneumatic conveying, sedimentation, filtration, fluidization, pneumatic conveying. 2.3 Liquid stirring machinery: stirring devices and mixing mechanisms: performance of stirrers, stirring power, and scaling of stirrers. 2.4 Heat transfer: heat conduction, heat transfer between two fluids, convective heat transfer coefficients, thermal radiation, heat exchangers. 2.5 Evaporation: Evaporation equipment: single-effect evaporation, multi-effect evaporation. 2.6 Gas absorption: gas-liquid phase equilibrium, mass transfer mechanisms and absorption rates, calculation of absorption towers, packed towers and packing. 2.7 Vapor-liquid equilibrium of distillation binary systems, distillation methods, design calculations for binary system distillation, plate columns, and multi-component distillation. 2.8 Properties of wet air during solid drying and humidity charts, material balance in dryers, drying rate and drying time, dryers. 2.9 Liquid-liquid extraction: Concepts, procedures and calculations for extraction operations, and extraction equipment. 2.10 Impregnation: Concepts, equipment, and calculation of the process. 3. Process Control (proportion of questions: 6%) 3.1 Understand the basic concepts of process control systems, be familiar with the components of automatic control, and be able to propose control scheme requirements based on process needs. 3.2 Be familiar with the characteristics of the controlled object. 3.3 Be familiar with the characteristics of process parameters and conversion techniques. Familiar with the measurement process, as well as the main measurement and conversion methods and principles of the four key process parameters (pressure, flow rate, temperature, and liquid level). Understand the basic working principles, characteristics, performance indicators, and application scenarios of common instruments, as well as error analysis. 3.4 The display instrument explains the measurement principle of the automatic electronic potentiometer. Understand the basic components and usage of digital display instruments. 3.5 Understanding the input-output relationship characteristics, features, and applications of basic and commonly used regulation laws in automatic control instruments. 3.6 Actuators: Understand the basic components of actuators, as well as the structural features and applications of pneumatic diaphragm control valves. Understand the flow characteristics of control valves. Understand the air-open and air-close types of control valves, as well as the methods for selecting the forward and reverse action of controllers. 3.7 Be familiar with the process design schemes for simple control systems. 3.8 Understand the composition and characteristics of computer control systems, as well as the knowledge related to computer interfaces in process control, as well as the hardware and software technologies used in process control computers. 4. Fundamentals of Chemical Engineering Design (15% of the exam score) 4.1 Process Design: Understand the meaning, types, and classifications of process design and engineering design, as well as the tasks involved at different design stages and their primary sequence. Understand the preliminary tasks, sequence of work, and specific requirements in chemical engineering design, including site selection, project proposals, feasibility studies, and design specifications. Understand the collection of basic data for chemical process design, the preparation of design plans, the contents and requirements of process calculations, and be familiar with the basic methods of material balance and energy balance. Understand the design of chemical process flows, identify the main tasks of such design (technical rationality), and learn the methods for process flow design as well as how to draw process flow diagrams. Understand the plan and elevation drawings of the workshop, comprehend the basic aspects of equipment layout, as well as the basic requirements for workshop design imposed by process considerations, architectural factors, and equipment, along with the various elements that need to be taken into account together. Understand the general requirements and basic specifications for pipe layout diagrams and pipe layout design, and be familiar with the specifications, materials, properties, and uses of common pipe fittings as well as various types of pipes and valves. Understand the general engineering knowledge related to process design in related fields (chemical processing equipment and machinery, process control, civil engineering, utility engineering, etc.), as well as the basic requirements for such design. Understand the content and requirements for writing a process design specification. 4.2 Process Design Safety – Understand the safety factors involved in process design safety. Understand the basic contents and general requirements regarding fire protection, explosion prevention, poison prevention, and occupational safety and health, as well as the basic standards that must be followed. 4.3 Economic Analysis of Process Design: Understand the factors that need to be analyzed to assess the economic rationality of process design, as well as its basic aspects and general requirements. Understand the requirements and criteria for evaluating design proposals, as well as the general methods of evaluation. 5. Prevention and control of chemical pollution (proportion of questions: 9%) 5.1 Principles of environmental pollution control: Be familiar with the basic principles of industrial pollution control and apply comprehensive knowledge. 5.2 Wastewater Treatment Understand the general methods of wastewater treatment. Understand the treatment technologies for heterogeneous wastewater, the biological treatment technologies for organic wastewater, and knowledge of incineration. 5.3 Waste gas treatment: Understands the general methods for treating chemical process waste gases. Understand the purification technologies for particulate pollutants in exhaust gases, as well as purification techniques such as absorption, adsorption, and catalytic conversion for gaseous pollutants, along with knowledge of incineration. 5.4 Waste residue treatment covers the general methods for the treatment and disposal of solid waste. Understand solid waste pretreatment technologies, sludge thickening and dewatering, as well as knowledge on solidification, pyrolysis, and incineration technologies. 5.5 Environmental Noise Control: Understanding the basic concepts of noise control, the properties of sound sources, the methods of representing sound pressure and sound speed, and the energy relationships in a sound field. Understand the general methods of noise control, as well as the basic knowledge of sound absorption, sound insulation, and silencers. Understand the scope and requirements for noise control in various locations such as industrial areas and residential areas. II. Syllabus for the Professional Examination for Registered Chemical Engineers (Examination Subjects and Main Contents) 1. Mass and Energy Balance (16% of the examination questions): Master the design and analysis methods for mass and energy balance in chemical processes, as well as the skills required for calculating systems and individual units. 1.1 Analysis of materials and energy (including losses) in industrial and chemical processes, chemical reaction equations. 1.2 Process calculation and material balance, energy balance, laws of mass conservation and energy conservation in processes. 2. Thermodynamic processes (10% of the exam questions): Master the methods for designing and analyzing thermodynamic processes, as well as the skills required for calculating properties of systems and individual equipment. 2.1 Physical and chemical properties of substances: estimation and conversion of physical properties of substances, ideal gases and mixed gases, properties of solutions. 2.2 The First Law of Thermodynamics and Energy: Basic design knowledge and calculation skills for industrial applications, including phase equilibrium, phase diagrams, latent heat, PVT data and relationships, chemical thermodynamic equilibrium, reaction heat, combustion, thermodynamic processes, evaporation and crystallization, comprehensive utilization of thermal energy, and steam and condensate balance. 2.3 The Second Law of Thermodynamics and Entropy: Basic design knowledge and computational skills for industrial applications. 2.4 Power cycles: refrigeration and heat pumps. 3. Fluid flow processes (14% of the exam questions): Master the design and analysis methods for the main types of flow processes, their industrial applications, as well as the computational skills related to systems and individual equipment. 3.1 Applications of Bernoulli’s equation, such as pipeline hydraulic calculations, fluid flow through beds, two-phase flow, etc. 3.2 Calculation of process parameters for fluid conveying machinery. 3.3 Solid conveying, screening, and crushing. 3.4 Separation of gas, liquid, and solid. 4. Heat transfer process (14% of the exam score): Master the design and analysis methods for heat transfer processes, their industrial applications, as well as the skills required for process calculations related to systems and individual equipment. 4.1 Theoretical knowledge of energy conservation and its application in industrial practical problems. 4.2 Analysis and calculation of heat transfer processes by conduction, convection, and radiation. 4.3 Process design of heat exchangers. 5. Mass transfer process (14% of the exam questions): Master the design and analysis methods for mass transfer processes, their industrial applications, as well as the skills required for calculating systems and individual equipment. 5.1 Theoretical knowledge of mass balance and computational skills in industrial applications. 5.2 Analysis and calculation of processes such as absorption, adsorption, desorption, distillation, drying, extraction, humidification, and dehumidification. 6. Chemical reaction kinetics (6% of the exam questions): Mastery of the design and analysis of chemical reaction processes in industry, industrial applications, as well as computational skills related to systems and individual equipment. 6.1 Basic principles of chemical reaction kinetics and industrial applications. 6.2 Comparison and selection of chemical reactor types. 6.3 Process calculation and analysis of chemical reactors: Designing industrial reactors based on rate models and/or product distribution ( Residence time distribution and corresponding conversion rates); analysis of ideal isothermal reactors (single-stage and multi-stage batch reactors, plug flow reactors, and continuous stirred-tank reactors), as well as reactors for single-phase and multi-phase reactions that are adiabatic and non-isothermal. 6.4 Process control of the reactor. 7. Chemical process design (10% of the exam score): Master the methods and skills for designing chemical plant processes. 7.1 Optimization design of the process scheme. 7.2 Process Flow Diagram (PFD). 7.3 Determination of design pressure and design temperature. 7.4 Energy consumption calculation. 7.5 Determination of process parameters for equipment (vessels, heat exchangers, towers, pumps, fans, compressors, etc.) ； Understand special manufacturing requirements, material properties, and corrosion prevention requirements. 7.6 Determination of the process control (monitoring, analysis, indication, and control) scheme. 7.7 Be familiar with the regulations and applications related to fire protection, occupational safety and health, and environmental protection in process plants. 8. Chemical process system design (10% of the exam score): Master the methods and skills for designing chemical plant process systems. 8.1 Process and utility piping and instrumentation diagrams (PID, UID) within the unit. 8.2 Analysis of system pressure drop, calculation of resistance for compressible and incompressible fluids in pipes, noise control for pipes and valves, requirements for pipe connections of equipment, and requirements for pressure differences in pumps. 8.3 Principles for the installation of valves and safety valves, rupture disks, flow-limiting orifices, flame arrestors, etc., and relevant data sheets ； Pipeline data table. 8.4 Equipment elevation and pump net positive suction head (NPSH). 8.5 Be familiar with the design requirements for equipment layout in the factory. 8.6 Be familiar with the plant’s pipeline layout requirements, as well as the insulation and painting requirements for equipment and pipelines. 8.7 General safety analysis methods, familiarity with HAZOP (Hazard and Operability) analysis, fault tree analysis, and listing methods. 9. Engineering Economic Analysis (proportion of questions: 3%) Familiarity with the skills for applying engineering economic analysis methods in engineering projects. 9.1 Basic knowledge of project costs, relevant data and evaluation methods for technical-economic analysis, as well as requirements and criteria for evaluating design proposals. 9.2 Analysis of cost composition, engineering quotas, and rules for calculating quantities. 9.3 Understand estimation, budgeting, and cost estimation methods. 10. Chemical engineering project management (proportion of questions: 3%) Be familiar with chemical engineering project management, as well as China’s relevant laws and regulations on capital construction. 10.1 Forms and procedures for project bidding, bidding processes and strategies, conditions for winning projects and evaluation methods, management of project contracts, control of project costs and resources, project claims. 10.2 Concepts and basic knowledge of project management. 10.3 Knowledge of plant design (content, procedures, and stages), as stipulated by China’s laws on capital construction. 10.4 The responsibilities, work procedures, document content, and level of detail required in this specialty at various stages of project implementation (consulting, preliminary project work, bidding, design, procurement, construction, supervision, commissioning, etc.). Basic Exam Reference Bibliography - Advanced Mathematics 1. Advanced Mathematics Volume 1 and 2 edited by Tongji University, third edition, Higher Education Press, 1988 2. Linear Algebra, Second Edition, edited by Tongji University Mathematics Teaching and Research Office, Higher Education Press, 1991 3. Engineering Mathematics Vector Analysis and Field Theory, Second Edition, Higher Education Press, edited by Xie Shuzhi 4. Edited by Chen Jiading, Liu Wanru, and Wang Renshi, Lecture Notes on Probability and Statistics, Second Edition, Higher Education Press 2, General Physics, Chief Editor, Cheng Shou, Jiang Zhiyong, General Physics, Third Edition, Higher Education Press, 1979, 3 General Chemistry 1. Edited by Zhejiang University, General Chemistry, Third Edition, Higher Education Press, 1988 2. Edited by Tongji University, General Chemistry, Tongji University Press, 1993 3. University Chemistry, edited by Liu Guopu, Tsinghua University Press, 1994 4. Edited by Yu Chunhai, Qi Changyao, and Northeast Forestry University Press, 1996. Four Theoretical Mechanics 1. The first edition of Theoretical Mechanics, edited by Tongji University Theoretical Mechanics Teaching and Research Office, Tongji University Press, 1990. 2. The second edition of Theoretical Mechanics, edited by Tan Guangquan, Luo Longkai, Xie Guangda, and Fan Difeng, South China University of Technology Press, 1995. 3. Theoretical Mechanics, edited by East China Water Conservancy Institute, People's Education Press, 1978. Five Materials Mechanics 1. Edited by Sun Xunfang and Hu Qiangqiang, revised by Jin Xinquan, 3rd edition of Mechanics of Materials, Higher Education Press, 1994 2. Edited by Liu Hongwen, 3rd edition of Mechanics of Materials, Higher Education Press, 1994 17. Six Fluid Mechanics 1 Hydraulics and Electrical Engineering, Southwest Jiaotong University Mechanics Teaching and Research Section, Higher Education Press, 1991 2 Applied Fluid Mechanics, edited by Hao Zhongtang and Zhou Junchang, Zhejiang University Press, 1991 7. Fundamentals of Computer Applications 1. Computer Basics and Internet Application Tutorial edited by Xu Huimin and others, Machinery Industry Press, 2001 2. FORTRAN77 Structured Programming, edited by Tan Haoqiang and Tian Shuqing, Higher Education Press, 1985. 8 Electrical Engineering and Electronic Technology 1. Edited by Qin Zenghuang, Electrical Engineering Volume 1 and 2, Fourth Edition, Higher Education Press, 1990 2. Edited by Luo Shouxin, Third Edition of Electrical Engineering, Higher Education Press, 1993 3. Edited by Cheng Shouzhu Jiang Zhishui General Physics Volume 2 Third Edition Electricity Section Higher Education Press 1979 Nine Engineering Economics 1. Edited by Fu Jiaji and Yunhuan Industrial Technology Economics Third Edition Tsinghua University Press 2. Edited by Wu Tianzu Introduction to Technical Economics Higher Education Press 10 Physical Chemistry 1. Song Shimo, editor-in-chief of the Teaching and Research Office of Physical Chemistry at Tianjin University Physical Chemistry 3rd Edition Higher Education Press 11 Principles of Chemical Engineering 1. Principles of Chemical Engineering edited by Tianjin University Tianjin Science and Technology Press 12 Chemical Engineering Process Control 1. Editor-in-Chief Li Yuming Chemical Instrumentation and Automation 3rd Edition Chemical Industry Press 13 Chemical Engineering Design Fundamentals 1. Ni Jinfang Editor-in-Chief Chemical Process Design Chemical Industry Press 14 Chemical Industry Press 14 Fundamentals of Chemical Pollution Control 1. Jiang Zhanpeng Editor-in-Chief: Environmental Engineering Higher Education Press 18.2. Wang Dahui Editor-in-Chief: Introduction to Chemical Environmental Engineering Chemical Industry Press 15 Chemical Thermodynamics 1. Tong Jingshan Editor-in-Chief Chemical Thermodynamics Tsinghua University Press 16 Occupational Regulations 1 Environmental Protection Law of the People's Republic of China 2 Water Pollution Prevention and Control Law of the People's Republic of China 3 Law of the People's Republic of China on the Prevention and Control of Environmental Pollution by Solid Waste 4 Atmospheric Pollution Prevention and Control Law of the People's Republic of China 5 Environmental Noise Pollution Prevention and Control Law of the People's Republic of China 19. Registered Chemical Engineer Qualification Examination Basic Examination Sub-subject Question Time Score Allocation Table Morning Section Advanced Mathematics 24 Questions Fluid Mechanics 12 Questions General Physics 12 Questions Fundamentals of Computer Application 10 Questions General Chemistry 12 Questions Electrical and Electronic Technology 12 Questions Theoretical Mechanics 13 Questions Engineering Economics 10 Mechanics of Materials 15 questions, 120 questions in total, 1 point each, exam time is 4 hours, afternoon session, Physical Chemistry, 12 questions, chemical engineering principles, 24 questions, chemical process control, 4 questions, basics of chemical engineering design, 8 questions, chemical pollution control basics, 3 questions, chemical thermodynamics, 6 questions, professional regulations, 3 questions, 60 questions in total, 2 points each, exam time is 4 hours. Author: folder508 Release Date: 2006-1-09 Advanced Mathematics 1.1 Space analytic geometry vector algebra straight line plane cylinder surface of rotation quadratic surface space curve 1.2 differential calculus limit continuous derivative differential partial derivative total differential derivative and application of differential 1.3 integral calculus indefinite integral definite integral generalized integral double integral triple integral plane curve integral application 1.4 infinite series mathematical series power series Taylor series Fourier series 1.5 Ordinary differential equations, separable variable equations, first-order linear equations, reducible-order equations, constant coefficient linear equations 1.6 Probability and mathematical statistics Random events and probability classical concepts Distribution of one-dimensional random variables and numerical characteristics Basic concepts of mathematical statistics Parameter estimation Hypothesis testing Variance analysis Univariate regression 1.1.7 Vector analysis 1.8 Linear algebra Determinant matrix n-dimensional vector System of linear equations Eigenvalues and eigenvectors Quadratic form 2 General physics 2.1 Thermal Gas State Parameters Equilibrium Ideal Gas Equation of State Statistical interpretation of pressure and temperature of ideal gas Energy according to the principle of equipartition of degrees of freedom Ideal gas internal energy Average number of collisions and mean free path Maxwell's rate distribution law Work Heat Internal energy First law of thermodynamics and its application to ideal gas Equivalent process and adiabatic process Molar heat capacity of gases Cyclic process Heat engine efficiency Second law of thermodynamics and its statistical significance Reversible process and irreversible process Entropy 2.2 Wave mechanics Generation and propagation of simple harmonic wave expression Wave energy Standing wave Sound speed Ultrasonic wave Infrasonic wave Doppler effect 2.3 Obtaining optical coherent light Young's double slit interference Optical path Thin film interference Michael interferometer Huygens Fresnel principle Single slit diffraction optical instrument Resolution power Material structure and state of matter Distribution of electrons outside the nucleus Electronic structure of atoms and ions Atomic orbitals and electron cloud concepts Characteristics of ionic bonds Covalent bond characteristics and types Molecular structure formula Hybrid orbitals and molecular space configuration Polar molecules and non-polar molecules Intermolecular forces and hydrogen bonds Partial pressure law and calculation of liquid vapor pressure Boiling point Heat of vaporization Relationship between crystal types and material properties 3.2 Concentration of solution and calculation of non-electrolyte dilute solution properties and calculation of osmotic pressure Concept of ionization equilibrium of electrolyte solution Ionization constant and calculation of iso-ion effect and buffer solution Water ion product and pH value Hydrolysis equilibrium of salts and acidity and alkalinity of solution Multiphase ion equilibrium solubility product constant Solubility concept and calculation 3.3 Periodic table Periodic table structure Periodic group atomic structure and periodic table relationship Element properties and the acid-base gradient law of oxides and their hydrates 3.4 Chemical reaction equation, chemical reaction rate and chemical equilibrium, chemical reaction equation writing and calculation of heat of reaction concept, thermochemical reaction equation writing, chemical reaction rate expression method, concentration and temperature influence on reaction rate, rate constant and reaction order, activation energy and catalyst concept 3. Chemical equilibrium characteristics and equilibrium constant expression, chemical equilibrium movement principle and calculation of pressure, entropy and chemical reaction direction judgment 3.5 Oxidation and electrochemistry Oxidant and reducing agent Oxidation and reduction reaction equation writing and coordination Plain battery composition and symbols Electrode reaction and battery reaction Standard electrode potential Nernst equation and application of electrode potential Electrolysis and metal corrosion 3.6 Organic Chemistry Characteristics of organic matter Classification and naming Functional groups and molecular structural formulas Important chemical reactions of organic matter Addition Substitution Elimination Oxidation Addition Polymerization and Condensation Polymerization Molecular formula properties and uses of typical organic matter Methane Acetylene Benzene Toluene Ethanol Phenol Acetaldehyde Ethyl acetate Ethylamine Aniline Polyvinyl chloride Polyethylene Polyacrylate Engineering Plastics (ABS) Rubber Nylon 66 Four Theoretical Mechanics 4.1 Statics Equilibrium Rigid Body Constraints Statics Axioms Force Analysis Force Moment About Point Moment Couple Theory of Axis Simplified Principal Vector Principal Moment Force System Equilibrium of an object system (including plane statically determinate truss) Sliding friction Friction angle self-locking Considering sliding friction Balance center of gravity of the object system 4.2 Kinematics 4. Equation of motion of a point Trajectory velocity and acceleration of a rigid body Fixed axis rotation of a rigid body Rotation equation Angular velocity and angular acceleration Velocity and acceleration of any point in a rigid body 4.3 Basic laws of dynamics Dynamics The motion of a particle Differential equation momentum impulse Momentum theorem Conditions for conservation of momentum Center of mass Theorem for center of mass motion Conditions for conservation of motion Momentum Momentum theorem Conditions for conservation of moment of momentum Fixed axis rotation of a rigid body Differential equation Rotational inertia Radius of gyration Rotational inertia Parallel axis theorem Work kinetic energy Potential energy Kinetic energy theorem Mechanical energy Conservation of inertial force Simplification of rigid body inertial force system D'Alembert's principle Differential equation of linear vibration of single degree of freedom system Vibration period frequency and amplitude constraints Degrees of freedom Generalized coordinate imaginary displacement Ideal constraint imaginary displacement principle 5. Mechanics of materials 5.1 Axial force and axial force diagram Stress intensity conditions on the cross section and oblique section of the tension and compression bar Hooke's law and displacement calculation Strain energy calculation 5.2 Practical calculation of shear and extrusion Shear Hooke's law Shear stress equality theorem 5.3 Calculation of external couple moment Torque and torque diagram Circular axis torsion shear stress and strength conditions Calculation of torsion angle and stiffness conditions Calculation of torsion strain energy 5.4 Static moment and centroid moment of inertia and inertia product Parallel translation axis formula Centroid principal moment of inertia 5.5 The internal force equation of the beam, the shear force diagram and the bending moment diagram q QM, the differential relationship between bending 5. Bending normal stress and normal stress strength conditions, bending shear stress and shear stress strength conditions, the concept of the rational cross-section bending center of the beam, the integral method for beam deformation, the superposition method and Karl's second theorem 5.6 Numerical solution and graphical method of plane stress state analysis, principal stress and maximum shear stress of a point stress state, generalized Hooke's law, four commonly used strength theories 5.7 Oblique bending, eccentric compression (or tension) Tension bending or compression bending combination torsion bending combination 5.8 Critical force formula of slender pressure rod Applicable scope of Euler's formula Critical stress General diagram and empirical formula Stability check of pressure rod 6 Fluid mechanics 6.1 Main physical properties of fluid 6.2 Hydrostatics The concept of hydrostatic pressure Distribution law of hydrostatic pressure under the action of gravity Calculation of total pressure 6.3 Fundamentals of fluid dynamics The concept of flow described with the flow field as the object Total flow analysis of constant total flow Continuity equation Energy equation and momentum equation 6.4 Flow resistance and head loss The two flow states of actual fluids are laminar flow and turbulent flow 6. Characteristics of laminar flow and turbulent flow in circular pipes Head loss along the way and local head loss Boundary layer Basic concept of boundary layer and flow resistance 6.5 Orifice nozzle outlet Pressure pipe constant flow 6.6 Open channel constant uniform flow 6.7 Seepage law Wells and water collection corridors 6.8 Similarity principles and dimensional analysis 6.9 Measurement of fluid motion parameters (flow velocity, flow pressure) 7 Computer application basics 7.1 Basic knowledge of computers Hardware composition and functions Software composition and function number conversion 7.2 Basic knowledge of Windows operating system System startup related directory files Disk and other operations Network functions Note based on Windows 98 7.3 Computer programming language Program structure and basic regulations Data variable array pointer assignment statement Input and output statement Transfer statement Conditional statement Selection statement Loop statement Function subroutine (or process) Sequence file Random file note Due to the current situation, FORTRAN language is temporarily used 7. 8 Electrical and electronic technology 8.1 Electric field and magnetic field Coulomb's law Gauss's theorem Loop law Electromagnetic induction law 8.2 DC circuit basic circuit components Ohm's law Kirchhoff's law Superposition principle Thevenin's theorem 8.3 Sinusoidal AC circuit Sinusoidal quantity Three elements effective value Complex impedance Single-phase and three-phase circuit calculation Power and power factor Series and parallel resonance Common sense of safe electricity use 8.4 RC and RL Three-element analysis method of circuit transient process 8.5 Transformer and motor Voltage, current and impedance conversion of transformer Use of commonly used relay contactor control circuit 8.6 Diode and rectifier filter voltage stabilizing circuit 8.7 Transistor and single tube amplifier circuit 8.8 Operational amplifier Proportional addition, subtraction and integral operation circuit composed of ideal operational amplifier 8.9 Gate circuit and flip-flop Basic gate circuit RS D JK flip-flop Author: folder508 Release date: 2006-1-09 Nine Project Economics 9.1 Cash flow composition and fund equivalent calculation Cash flow Investment assets Fixed assets Depreciation cost Operating costs Sales income Profit Common formulas for the main taxes involved in project investment Common formulas for fund equivalent calculation and application of compound interest coefficient tables 9.2 Investment economic effect evaluation methods and parameters Net present value Internal rate of return Net annual value of expenses Present value of expenses Annual value difference Internal rate of return Investment payback period Benchmark discount rate Type of alternatives Comparison of equal life plans and unequal life plans 9.3 Uncertainty analysis Breakeven analysis Breakeven point Fixed cost Variable cost Single factor sensitivity analysis Sensitive factors 9.4 Financial evaluation of investment projects Basic contents of feasibility study of industrial investment projects Objectives and work contents of investment projects Profitability analysis Main methods of fund raising Main methods of capital cost Debt repayment Basic financial statements Economic effect of total investment and economic effect of own funds Cash flow statement of total investment and cash flow statement of own funds Financial effect calculation Solvency analysis Characteristics of financial evaluation of expansion, expansion and technological transformation investment projects (relative to new projects) 9.5 Value engineering 9. Concept content and implementation steps of value engineering Functional analysis 10 Physical chemistry 10.1 PVT of gases Properties 10.2 First law of thermodynamics 10.3 Second law of thermodynamics 10.4 Thermodynamics of multicomponent systems 10.5 Chemical equilibrium Chemical equilibrium of ideal gas reaction Chemical equilibrium of actual reaction 10.6 Phase equilibrium One-component system Two-component system Gas-liquid equilibrium Two-component system Liquid-solid equilibrium Three-phase system 10.7 Electrochemical electrolytic cell Primary cell and Faraday's law Electrolyte solution Primary cell Electrolysis and polarization 10.8 Surface phenomenon Surface tension Wetting phenomenon Additional pressure of curved liquid surface and capillary phenomenon Adsorption on solid surface Isothermal adsorption Adsorption on solution surface Surface active substances 10.9 Basic chemical kinetics Chemical reaction rate equation Composite reaction rate and mechanism Reaction rate theory 10.10 Kinetics of various special reactions 10. Reactions in solution and heterogeneous reactions Photochemical catalysis 10.11 Colloidal Chemistry Colloidal Dispersion System and Its Basic Properties Stability and Coagulation of Lyophobic Sols Stability and Coagulation of Emulsions Foam Suspensions and Aerosol Polymer Compound Solutions 11 Principles of Chemical Engineering 11.1 Fluid Conveying Machinery Liquid Conveying Equipment Centrifugal Pumps Other Types of Pumps Gas Conveying and Compression Equipment 11.2 Separation of Heterogeneous Systems Fluidization and Pneumatic Conveying Sedimentation Filtration Fluidization Pneumatic Conveying 11.3 Liquid Stirring Mechanical Stirring Devices and Mixing Mechanisms Performance of Mixers Amplification of Stirring Power of Mixers 11.4 Heat transfer Heat conduction Heat transfer between two fluids Convection heat transfer coefficient Thermal radiation heat exchanger 11.5 Evaporation and evaporation equipment Single-effect evaporation Multiple-effect evaporation 11.6 Gas absorption Gas-liquid phase equilibrium mass transfer mechanism and absorption rate calculation of absorption tower Packed tower and packing 11.11.7 Distillation binary system gas-liquid equilibrium distillation method Design calculation of binary system rectification Plate column multi-system rectification 11.8 Properties and humidity diagram of solid drying wet air Material and energy balance of dryer Drying rate and drying time Dryer 11.9 Concept of liquid-liquid extraction and process and calculation of extraction operation Extraction equipment 11.10 Concept of leaching equipment and calculation of process 12. Chemical process control 12.1 Basic concepts of process control system Components of automatic control 12.2 Characteristics of controlled objects 12.3 Main measurement and conversion method principles of process parameters (pressure, flow, temperature, liquid level), basic working principles of commonly used instruments, characteristics, performance indicators, usage occasions, error analysis 12.4 Display instrument, automatic electronic potentiometer measurement principle, basic composition and use method of digital display instrument 12.5, automatic adjustment instrument 12. Input-output relationship characteristics, characteristics and application of common adjustment rules 12.6 Actuator Basic components of actuator Structural characteristics and application flow characteristics of pneumatic diaphragm regulating valves Gas opening and closing forms of regulating valves and forward and reverse action selection methods of controllers 12.7 Process design of simple control systems 12.8 Composition and characteristics of computer control systems Process control computer interface technical knowledge and process control computer hardware and software technical knowledge 13 Chemical engineering design basics 13.1 Process design Process design and engineering design meaning type and classification Work content and main work sequence of different design stages Preliminary work content of chemical design Work sequence and specific requirements Plant site selection Project proposal Feasibility study and design task statement Process calculation content and requirements Material balance and energy balance Basic methods Chemical process flow design Main tasks of process flow design (technical rationality) Process flow design method and process flow diagram Drawing the floor plan and elevation layout of the workshop Basic content of equipment layout Basic requirements for workshop layout of process construction equipment Pipe layout diagram and general requirements and basic specifications for pipeline layout Common pipe accessories 13. Various pipe and valve specifications Material properties and uses 13.2 Process design safety Safety factors involved in process design safety Fire protection, explosion protection and poison prevention Basic content and general requirements for labor safety and health 13.3 Economic analysis of process design Factors that should be analyzed for economic rationality of process design Basic content and general requirements Requirements and criteria for evaluation of design plans General method of evaluation 14. Basics of chemical pollution control 14.1 Principles of environmental pollution control Basic principles of industrial pollution control Comprehensive utilization knowledge 14.2 General methods of wastewater treatment Wastewater treatment Treatment technology of heterogeneous wastewater and biological treatment technology of organic wastewater Incineration knowledge 14.3 Waste gas treatment General methods of chemical waste gas treatment Purification technology of particulate pollutants in waste gas and absorption, adsorption, catalytic conversion of gaseous pollutants and other purification technologies and incineration knowledge 14.4 Waste residue treatment Solid waste treatment and disposal technology Sludge concentration and dehydration Related solidification pyrolysis incineration technology knowledge 14.14.5 Environmental noise control Basic concepts of noise control Nature of sound sources Expression method of sound pressure and sound velocity Energy relationship in sound field General methods of noise control Basic knowledge of sound absorption, sound insulation and mufflers Scope and requirements of noise control in various places such as industrial areas and residential areas 15 Chemical engineering thermodynamics 15.1 Thermodynamic state parameters Ideal gas state equation 15.2 Work heat and internal energy 15.3 The first law of thermodynamics and its application to the ideal gas equivalent process and adiabatic process polygonal process 15.4 Heat capacity, enthalpy and entropy of gases 15.5 Thermodynamic process cycle process and heat engine efficiency 15.6 Second law of thermodynamics Reversible and irreversible process entropy 15.7 Cubic equation of state fugacity and fugacity coefficient 15.8 Ideal solution normal solution and athermal solution 15.9 Activity coefficient Mixing properties Partial molar properties Excess properties and excess Gibbs free energy The relationship between excess Gibbs free energy and activity coefficient 15.10 Calculation of azeotropic point of total pressure and vapor phase composition in low-pressure vapor-liquid equilibrium 15.11 Liquid-liquid equilibrium and activity coefficient calculation based on liquid-liquid equilibrium data 15. Sixteen professional regulations 16.1 my country's laws and regulations on capital construction, real estate, urban planning, environmental protection, etc. 16.2 Professional ethics and code of conduct for engineering designers Professional classification New professional name Old professional name Supplementary professional name Engaged in main engineering design 1. Chemical engineering and process chemical engineering of this major, Chemical process Inorganic chemical industry Organic chemical industry Organic synthetic materials Applied chemistry Biochemical engineering Basic organic synthesis Polymer engineering, petrochemical engineering Rubber engineering and plastic engineering Chemical fiber, textile engineering Petroleum refining, petroleum processing Petroleum storage and transportation Coal chemical fuel Chemical energy Chemical industry Carbon materials Fine chemicals Pesticides Chemical industry Photosensitive materials Salt production and salt chemicals Daily chemicals Refrigeration and refrigeration engineering Refrigeration and low-temperature technology Air conditioning and clean engineering Pulp and paper engineering Grain, oil storage and grease engineering Microbial pharmaceuticals * * Design and manufacturing industrial fermentation forest products chemicals petroleum refining engineering design petroleum product deep processing engineering design petroleum and chemical products storage and transportation engineering design synthetic materials and processing engineering design fine chemical engineering design chemical fiber engineering design rubber processing engineering design etc. Salt production and salt chemical engineering design daily silicate engineering design film engineering design storage and transportation engineering design national defense supporting chemical engineering design gas engineering design powder engineering design industry Sewage treatment and exhaust gas recovery engineering design Chinese patent medicine engineering design Pharmaceutical preparation engineering design Pulp and paper engineering design Daily chemical engineering design Leather, fur and products engineering design Textile and printing and dyeing engineering design Sugar engineering design Tobacco engineering design Beer and beverage engineering design Refrigeration and refrigeration engineering design Pulp and paper engineering design Unit process and equipment design Polymer chemical engineering, fine chemical engineering, chemical engineering and process biochemical engineering (part) Industrial Analysis, Electrochemical Engineering Industrial Catalysis Petroleum Engineering Polymer Materials and Chemical Engineering Polymer Materials and Engineering Polymer Materials and Engineering Composite Materials (Part) Polymer Materials and Chemical Engineering Inorganic Non-metallic Materials Engineering Inorganic Non-metallic Materials Silicate Engineering Composite Materials (Part) Pharmaceutical Engineering Chemistry Pharmaceuticals, Pharmaceutical Engineering, Biopharmaceuticals Traditional Chinese Medicine Light Engineering Leather Engineering Pulp and Paper Engineering Dyeing and Finishing Engineering Food Science and Engineering Sugar Engineering, Oil and Fat Engineering Grain Engineering Food Science and Engineering Tobacco Engineering Bioengineering Biochemical Engineering (Part) Biochemical engineering (part) Fermentation engineering Others such as forest products chemical engineering, etc. 2. Similar professional process equipment and control engineering Chemical machinery and equipment Process unit and equipment design Environmental engineering Environmental engineering, environmental monitoring Three waste treatment engineering design and other safety engineering Safety engineering Architectural environment and equipment engineering Others Registered chemical engineer professional qualification examination basic examination (Part 1) review * Tutorials and simulation test questions (with CD-ROM) This book is written completely and strictly in accordance with the basic examination syllabus of the registered chemical engineer qualification examination. The content covers all the contents of the morning section of the basic examination, including 9 courses of advanced mathematics, general physics, theoretical mechanics, material mechanics, fluid mechanics, computer application foundation, electrical and electronic technology, and engineering economics. For each course, the textbook includes requirements for the exam syllabus, review tips, review content, simulation questions, answers to questions, and a list of reference books ； The attached CD contains simulated questions with solutions, as well as three sets of practice tests that are identical in format and number of questions to those in the actual exam. The CD features functions for searching, self-testing, filtering, and automatic grading. This book is suitable for candidates taking the basic examination for the Certified Chemical Engineer professional qualification exam, and it also serves as an important reference for those working in related fields. I. Advanced Mathematics 1. Analytic Geometry in Space 2. Differential Calculus 3. Integral Calculus 4. Infinite Series 5. Ordinary Differential Equations 6. Probability and Mathematical Statistics 7. Vector Analysis 8. Linear Algebra

II. General Physics 1. Thermodynamics 2. Wave Mechanics 3. Optics

III. General Chemistry 1. Structure of Matter 2. Solutions 3. Redox Reactions and Electrochemistry 4. Rate of Chemical Reactions and Chemical Equilibrium 5. Organic Compounds and Organic Polymers

IV. Theoretical Mechanics 1. Statics 2. Kinematics 3. Dynamics

V. Mechanics of Materials 1. Axial Tension and Compression 2. Shear 3. Torsion 4. Geometric Properties of Cross-Sections 5. Bending 6. Stress State Analysis and Strength Theory 7. Combined Deformations 8. Stability of Pressure Members

VI. Fluid Mechanics 1. Basic Physical Properties of Fluids 2. Fluid Statics 3. Fundamentals of Fluid Dynamics 4. Flow Resistance and Head Losses 5. Steady Flow in Orifices, Nozzles, and Pressured Pipes 6. Steady Uniform Flow in Open Channels 7. Seepage 8. Similarity Principles and Dimensional Analysis 9. Measurement of Fluid Motion Parameters

VII. Basics of Computer Applications 1. Basic Computer Knowledge 2. Windows Operating System 3. Computer Programming Languages

VIII. Electrical and Electronic Technology 1. Electric and Magnetic Fields 2. DC Circuits 3. Sinusoidal AC Circuits 4. Transient Processes in RC and RL Circuits 5. Transformers and Motors 6. Diodes and Rectifier, Filter, and Voltage-Stabilizing Circuits 7. Transistors and Single-Transistor Amplifier Circuits 8. Operational Amplifiers

IX. Engineering Economics 1. Composition of Cash Flows and Equivalent Value Calculation 2. Methods and Parameters for Evaluating the Economic Effectiveness of Investments 3. Uncertainty Analysis 4. Financial Evaluation of Investment Projects 5. Value Engineering

X. Physical Chemistry

XI. Principles of Chemical Engineering

XII. Control of Chemical Processes

XIII. Basics of Chemical Engineering Design

XIV. Basics of Chemical Pollution Control

XV. Chemical Thermodynamics

XVI. Occupational Regulations